mhurhangee/ep-ind-claims huggingface dataset:
Spray gun system, comprising a spray gun which is intended for dispensing a spray material and to which a spray material receptacle can be fastened, a base appliance with a housing in which a compressed air generator is accommodated, and with a lid which is designed in such a way that it either covers or exposes a receiving space formed in the housing and serving to receive components (36, 38, 50) of the spray gun system, and a compressed air hose which can be attached to the spray gun and to the base appliance in order to connect these to each other, wherein a receiving device for receiving the spray gun, with the spray material receptacle fastened thereto, is provided on the housing of the base appliance, wherein the receiving device is provided on the outside of the lid and has at least one depression (54, 56) in which the spray gun, with the spray material receptacle fastened thereto, can be at least partially received, characterized in that the receiving device has a first depression for at least partially receiving the spray gun, and a second depression for at least partially receiving the spray material receptacle fastened thereto.
A process for preparing a crystalline ammonium sulfate product, which process comprises: a) subjecting in a crystallizer a feed solution of ammonium sulfate to crystallization to form a first slurry of ammonium sulfate crystals; b) subjecting the first slurry of ammonium sulfate crystals to a first size classification to yield a first coarse ammonium sulfate crystal fraction and a first fine ammonium sulfate crystal fraction; c) recycling at least part of the first fine ammonium sulfate crystal fraction to the feed solution of ammonium sulfate; and d) recovering a crystalline ammonium sulfate product from the first coarse ammonium sulfate crystal fraction, characterized in that: e) a second size classification is carried out on a second slurry of ammonium sulfate crystals to yield a second coarse ammonium sulfate crystal fraction and a second fine ammonium sulfate crystal fraction, wherein the second slurry of ammonium sulfate crystals is - the first fine ammonium sulfate crystal fraction or - is withdrawn directly from the crystallizer; and wherein at least part of the second fine crystal fraction is recycled to the feed solution of ammonium sulfate. a) subjecting in a crystallizer a feed solution of ammonium sulfate to crystallization to form a first slurry of ammonium sulfate crystals; b) subjecting the first slurry of ammonium sulfate crystals to a first size classification to yield a first coarse ammonium sulfate crystal fraction and a first fine ammonium sulfate crystal fraction; c) recycling at least part of the first fine ammonium sulfate crystal fraction to the feed solution of ammonium sulfate; and d) recovering a crystalline ammonium sulfate product from the first coarse ammonium sulfate crystal fraction, e) a second size classification is carried out on a second slurry of ammonium sulfate crystals to yield a second coarse ammonium sulfate crystal fraction and a second fine ammonium sulfate crystal fraction, - the first fine ammonium sulfate crystal fraction or - is withdrawn directly from the crystallizer; and
Vacuum cleaner bag, particularly for a battery-powered vacuum cleaner, with a filter material, which has an air permeability of more than 500 I/m 2 x s and dust emission in accordance with DIN EN 60 312 of less than 1 mg dust at an air volume flow of less than 60 m 3 /h and which comprises at least one layer, which is constructed as a supporting layer, and a pre-filtration layer, wherein the filter material comprises at least one layer of spunbonded material.
A swivel comprising: a first swivel member comprising a first load shoulder; a second swivel member comprising a second load shoulder, wherein the first and second swivel members (112, 114) are rotatable relative to each other; a deformable bearing component provided within a cavity defined between the first and second load shoulders (116, 118), wherein the deformable bearing component is in sliding contact with one or both of the first and second load shoulders (116, 118) to accommodate relative rotation between the first and second swivel members (112, 114), a rotary bearing interface being defined between the deformable component and the at least one of the first and second load shoulders (116, 118), wherein load applied between the first and second load shoulders (116, 118) is transmitted via the deformable bearing component, the deformable bearing component being deformable to accommodate variations in alignment between the first and second load shoulders (116, 118), wherein the deformable bearing component is configured to deform to maintain continuous contact between the deformable bearing component and at least one of the first and second load shoulders (116, 118). a first swivel member comprising a first load shoulder; a second swivel member comprising a second load shoulder, wherein the first and second swivel members (112, 114) are rotatable relative to each other; a deformable bearing component provided within a cavity defined between the first and second load shoulders (116, 118), wherein the deformable bearing component is in sliding contact with one or both of the first and second load shoulders (116, 118) to accommodate relative rotation between the first and second swivel members (112, 114), a rotary bearing interface being defined between the deformable component and the at least one of the first and second load shoulders (116, 118), wherein load applied between the first and second load shoulders (116, 118) is transmitted via the deformable bearing component, the deformable bearing component being deformable to accommodate variations in alignment between the first and second load shoulders (116, 118), wherein the deformable bearing component is configured to deform to maintain continuous contact between the deformable bearing component and at least one of the first and second load shoulders (116, 118).
A method for controlling a cell expansion apparatus, said method comprising conducting a fluid containing cellular matter into a cellular growth area; providing fluid to said cellular growth area to maintain conditions conducive for cell growth in said cellular growth area; monitoring inflow fluid conditions to the cellular growth area; monitoring fluid conditions, said conditions comprising at least one of nutrient levels or lactate levels in said cellular growth area; determining rates of change for at least one of said nutrient levels or lactate levels and calculating cell numbers therefrom; determining a rate of change of a rate of change for the at least one level and calculating a predicted process time; and terminating the growth process when adequate cell numbers have been produced. conducting a fluid containing cellular matter into a cellular growth area; providing fluid to said cellular growth area to maintain conditions conducive for cell growth in said cellular growth area; monitoring inflow fluid conditions to the cellular growth area; monitoring fluid conditions, said conditions comprising at least one of nutrient levels or lactate levels in said cellular growth area; determining rates of change for at least one of said nutrient levels or lactate levels and calculating cell numbers therefrom; determining a rate of change of a rate of change for the at least one level and calculating a predicted process time; and terminating the growth process when adequate cell numbers have been produced.
Dispensing device for one or more sanitary fluids (9, 10), in particular liquid soap and/or disinfectant, wherein the dispensing device has a carrying device for one or more fluid containers (11, 12), a removal device for removing the fluid (9, 10) from the fluid container (11, 12) and a conveying device for the further transport of the fluid (9, 10), characterized in that the carrying device is in the form of a hanging carrier for one or more bag-shaped, flexible fluid containers (11, 12), wherein the removal device has at least one removal element which is designed for introducing into a discharge opening on the lower side of the fluid container (11, 12) and for releasing a closure in the discharge opening, and the removal device is connected to the conveying device via a line.
A cosmetic vessel, comprising: a discharge unit discharging cosmetics to an outside; and a discharge plate provided at one side of the discharge unit from which the cosmetics are discharged, including a plurality of discharge holes, contacted by a user's puff and exposed to the outside to dissipate heat; characterized in that the discharge plate is made of a metal, and in that the plurality of discharge holes increase in diameter as the plurality of discharge holes are away from the center of the discharge plate. a discharge unit discharging cosmetics to an outside; and a discharge plate provided at one side of the discharge unit from which the cosmetics are discharged, including a plurality of discharge holes, contacted by a user's puff and exposed to the outside to dissipate heat; characterized in that the discharge plate is made of a metal, and in that the plurality of discharge holes increase in diameter as the plurality of discharge holes are away from the center of the discharge plate.
An airfoil edge contouring tool, comprising: a housing having a pathway for an airfoil; a grinding structure having a desired shape of an airfoil edge; a guide bearing (50,52) which limits motion of said grinding structure in a first dimension; an edge guide (80,82) which allows motion of said grinding structure in a second dimension; wherein said guide bearing (50,52) comprises a first bearing and a second bearing, characterized in that said edge guide (80,82) being a first wheel and a second wheel, wherein one of said first and second wheels (80,82) is stationary and the other of said first and second wheels is floating. a housing having a pathway for an airfoil; a grinding structure having a desired shape of an airfoil edge; a guide bearing (50,52) which limits motion of said grinding structure in a first dimension; an edge guide (80,82) which allows motion of said grinding structure in a second dimension; wherein said guide bearing (50,52) comprises a first bearing and a second bearing, characterized in that said edge guide (80,82) being a first wheel and a second wheel, wherein one of said first and second wheels (80,82) is stationary and the other of said first and second wheels is floating.
A method of mounting a turbine retention device, comprising: aligning a mounting bracket with an opening in a cylindrical diffuser, the mounting bracket attached to a wing and a cylindrical bullet, wherein the cylindrical bullet is hollow with a cap providing a solid surface to prevent exhaust from flowing through the cylindrical bullet, and wherein the wings meet the cylindrical bullet at a substantially tangential angle such that the wings lie on a non-radial plane with respect to the cylindrical bullet; and installing a fastener through the opening and the mounting bracket, wherein the opening is formed in the cylindrical diffuser while the cylindrical diffuser is installed on an aircraft. aligning a mounting bracket with an opening in a cylindrical diffuser, the mounting bracket attached to a wing and a cylindrical bullet, wherein the cylindrical bullet is hollow with a cap providing a solid surface to prevent exhaust from flowing through the cylindrical bullet, and wherein the wings meet the cylindrical bullet at a substantially tangential angle such that the wings lie on a non-radial plane with respect to the cylindrical bullet; and installing a fastener through the opening and the mounting bracket, wherein the opening is formed in the cylindrical diffuser while the cylindrical diffuser is installed on an aircraft.
A process for producing a resin molded product, comprising: a resist pattern formation step comprising forming a resist layer on a substrate and performing exposure using a mask and development; a metal structure formation step for depositing by plating a metal structure in accordance with the resist pattern formed on the substrate; and a molded product formation step for forming a resin molded product by using the metal structure as a mold; wherein the resist pattern formation step includes: a step for forming a first resist layer on the substrate and performing exposure on the first resist layer; and a step for forming a second resist layer on the first resist layer and performing exposure, or exposure and development on the second resist layer and wherein the depth of a concave part of the resin molded product formed by the molded product formation step is 20 to 500 μm. a resist pattern formation step comprising forming a resist layer on a substrate and performing exposure using a mask and development; a metal structure formation step for depositing by plating a metal structure in accordance with the resist pattern formed on the substrate; and a molded product formation step for forming a resin molded product by using the metal structure as a mold; wherein the resist pattern formation step includes: a step for forming a first resist layer on the substrate and performing exposure on the first resist layer; and a step for forming a second resist layer on the first resist layer and performing exposure, or exposure and development on the second resist layer and wherein the depth of a concave part of the resin molded product formed by the molded product formation step is 20 to 500 μm. a step for forming a first resist layer on the substrate and performing exposure on the first resist layer; and a step for forming a second resist layer on the first resist layer and performing exposure, or exposure and development on the second resist layer and wherein the depth of a concave part of the resin molded product formed by the molded product formation step is 20 to 500 μm.
A moisture curing hot-melt adhesive composition comprising: a) At least one at 25°C solid silane-functionalized poly-α-olefin P and b) A reaction product RP obtainable by a method comprising steps of: A) Reacting at least one polyester block copolymer as component b1) with at least one polyisocyanate as component b2) wherein the stoichiometric ratio of isocyanate groups to hydroxyl groups is above 1.0 to obtain a reaction mixture comprising an isocyanate-functional polyurethane pre-polymer, B) Adding at least one mercaptosilane of the formula as component b3) HS-R 3 -Si (3-a) (R 2) a in which R 2 is a linear or branched alkyl group having 1 to 10 C atoms, R 3 is a linear or branched alkylene group having 1 to 10 C atoms, X is a hydrolyzable radical, and a has a value of 0, 1 or 2, preferably 0, to the reaction mixture obtained in step A) and carrying out reaction to give the reaction product RP. a) At least one at 25°C solid silane-functionalized poly-α-olefin P and b) A reaction product RP obtainable by a method comprising steps of: A) Reacting at least one polyester block copolymer as component b1) with at least one polyisocyanate as component b2) wherein the stoichiometric ratio of isocyanate groups to hydroxyl groups is above 1.0 to obtain a reaction mixture comprising an isocyanate-functional polyurethane pre-polymer, B) Adding at least one mercaptosilane of the formula as component b3) HS-R 3 -Si (3-a) (R 2) a in which R 2 is a linear or branched alkyl group having 1 to 10 C atoms, R 3 is a linear or branched alkylene group having 1 to 10 C atoms, X is a hydrolyzable radical, and a has a value of 0, 1 or 2, preferably 0, to the reaction mixture obtained in step A) and carrying out reaction to give the reaction product RP. A) Reacting at least one polyester block copolymer as component b1) with at least one polyisocyanate as component b2) wherein the stoichiometric ratio of isocyanate groups to hydroxyl groups is above 1.0 to obtain a reaction mixture comprising an isocyanate-functional polyurethane pre-polymer, B) Adding at least one mercaptosilane of the formula as component b3) HS-R 3 -Si (3-a) (R 2) a in which R 2 is a linear or branched alkyl group having 1 to 10 C atoms, R 3 is a linear or branched alkylene group having 1 to 10 C atoms, X is a hydrolyzable radical, and a has a value of 0, 1 or 2, preferably 0, to the reaction mixture obtained in step A) and carrying out reaction to give the reaction product RP.
A charging member, comprising: a support; and an elastic layer, wherein the elastic layer is formed by vulcanizing and molding an unvulcanized rubber composition comprising the following rubbers and, and then irradiating a surface of a vulcanized and molded product with an electron beam: a butadiene rubber or a styrene-butadiene rubber; and a liquid rubber having a butadiene skeleton and containing per molecule three or more functional groups selected from an acrylic group, a methacryloyl group, and a maleic acid group. a support; and an elastic layer, wherein the elastic layer is formed by vulcanizing and molding an unvulcanized rubber composition comprising the following rubbers and, and then irradiating a surface of a vulcanized and molded product with an electron beam: a butadiene rubber or a styrene-butadiene rubber; and a liquid rubber having a butadiene skeleton and containing per molecule three or more functional groups selected from an acrylic group, a methacryloyl group, and a maleic acid group. a butadiene rubber or a styrene-butadiene rubber; and a liquid rubber having a butadiene skeleton and containing per molecule three or more functional groups selected from an acrylic group, a methacryloyl group, and a maleic acid group.
An aircraft including an active vibration control system comprising: a plurality of actuators; at least one sensor located within a passenger cabin of the aircraft and configured to detect a magnitude and frequency of one or more of vibration and sound and generate one or more of a vibration and sound feedback signal; and a controller connected to each of the plurality of actuators and each of the at least one sensor, the controller being configured to effect control of the plurality of actuators based on the feedback signal where the actuators effect suppression of one or more of vibration and sound; characterized in that: the plurality of actuators correspond to and are disposed adjacent each engine of an aircraft; the at least one sensor is configured to detect the magnitude and frequency of one or more of vibration and sound produced by a respective engine; and the controller is configured to effect control of no more than two of the plurality of actuators for a respective engine based on the feedback signal where the no more than two actuators effect suppression of one or more of vibration and sound of a respective engine due to a rotating axis of the respective engine. a plurality of actuators; at least one sensor located within a passenger cabin of the aircraft and configured to detect a magnitude and frequency of one or more of vibration and sound and generate one or more of a vibration and sound feedback signal; and a controller connected to each of the plurality of actuators and each of the at least one sensor, the controller being configured to effect control of the plurality of actuators based on the feedback signal where the actuators effect suppression of one or more of vibration and sound; the plurality of actuators correspond to and are disposed adjacent each engine of an aircraft; the at least one sensor is configured to detect the magnitude and frequency of one or more of vibration and sound produced by a respective engine; and the controller is configured to effect control of no more than two of the plurality of actuators for a respective engine based on the feedback signal where the no more than two actuators effect suppression of one or more of vibration and sound of a respective engine due to a rotating axis of the respective engine.
Filter material impregnated on one side with binder, in particular for gas filtration, characterised in that the filter material comprises one side not impregnated with binder which contains a halogen-free and boron-free flame retardant.
Process for determination of the leakage current of a load fed via an AC voltage source with a significant capacitive component, whereby the aforesaid load is an electro-luminescent film, and whereby the voltage source is separated from the load at least for a short time (Δt) and observed on the load terminals of the voltage curve, characterised by the fact that the difference (ΔU) in voltage at the start of the time period and the voltage at the end of the time period is determined, and if with regard to a reference value (ΔU r) the difference is exceeded an error signal (i) is output, from which the AC voltage source (Qw) remains deactivated from the load (B, ELF).
A composition comprising a heterophasic propylene copolymer, glass fibers and an ethylene-α-olefin copolymer, wherein the α-olefin is chosen from the group of α-olefins having 3 to 12 carbon atoms, wherein the heterophasic propylene copolymer consists of (a) a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer and/or a propylene- α-olefin copolymer consisting of at least 85 wt% of propylene and at most 15 wt% of α-olefin, based on the total weight of the propylene-based matrix and wherein the propylene-based matrix is present in an amount of 55 to 75 wt% based on the total heterophasic propylene copolymer and (b) a dispersed ethylene-α-olefin copolymer, wherein the dispersed ethylene-α-olefin copolymer is present in an amount of 45 to 25 wt% based on the total heterophasic propylene copolymer and wherein the sum of the total amount of propylene-based matrix and total amount of the dispersed ethylene-α-olefin copolymer in the heterophasic propylene copolymer is 100 wt% based on the heterophasic propylene copolymer, wherein the heterophasic propylene copolymer has a flexural modulus of less than 1000 MPa as determined at 23 °C in the parallel direction according to ASTM D790 Procedure B on a sample of 65×12.7× 3.2 mm. wherein the dispersed ethylene α-olefin copolymer (b) has an average rubber particle size d 50 of at most 1.15 μm as determined by scanning electron microscopy and wherein the total amount of (b) the dispersed ethylene-α-olefin copolymer in the heterophasic propylene copolymer and the ethylene-α-olefin copolymer is 30 to 60wt% based on the total composition. wherein the heterophasic propylene copolymer consists of (a) a propylene-based matrix, (a) a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer and/or a propylene- α-olefin copolymer consisting of at least 85 wt% of propylene and at most 15 wt% of α-olefin, based on the total weight of the propylene-based matrix and wherein the propylene-based matrix is present in an amount of 55 to 75 wt% based on the total heterophasic propylene copolymer and (b) a dispersed ethylene-α-olefin copolymer, wherein the dispersed ethylene-α-olefin copolymer is present in an amount of 45 to 25 wt% based on the total heterophasic propylene copolymer and wherein the sum of the total amount of propylene-based matrix and total amount of the dispersed ethylene-α-olefin copolymer in the heterophasic propylene copolymer is 100 wt% based on the heterophasic propylene copolymer, wherein the heterophasic propylene copolymer has a flexural modulus of less than 1000 MPa as determined at 23 °C in the parallel direction according to ASTM D790 Procedure B on a sample of 65×12.7× 3.2 mm. wherein the dispersed ethylene α-olefin copolymer (b) has an average rubber particle size d 50 of at most 1.15 μm as determined by scanning electron microscopy and wherein the total amount of (b) the dispersed ethylene-α-olefin copolymer in the heterophasic propylene copolymer and the ethylene-α-olefin copolymer is 30 to 60wt% based on the total composition.