mhurhangee/ep-ind-claims huggingface dataset:
A disinfection device for water dispenser intended for installation into a water dispenser having - an accumulating reservoir for drinking water filled from an external source of drinking water; - water dispensing device (23, 26) for dispensing water to a consumer; and - a delivery pipeline for water delivery from the accumulating reservoir for drinking water to the water dispensing device (23, 26); the disinfection device comprises: - a flow-through ozone-air mixture generator provided with an air pump for external air delivery via an air filter to the ozone-air mixture generator, wherein an output of the ozone-air mixture generator is connected with the delivery pipeline for delivery of ozone-air mixture or air inside the delivery pipeline; - a non-return valve mounted between the delivery pipeline and the ozone-air mixture generator to prevent water from getting into the ozone-air mixture generator from the delivery pipeline; - an electromechanical ultrasonic frequency irradiator mounted on the delivery pipeline to generate ultrasonic oscillations in the delivery pipeline walls and in water filling the delivery pipeline; - a program control unit to control operation of the ozone-air mixture generator, the air pump and the electromechanical irradiator for disinfection and cleaning of inner surfaces of the delivery pipeline and water therein. - an accumulating reservoir for drinking water filled from an external source of drinking water; - water dispensing device (23, 26) for dispensing water to a consumer; and - a delivery pipeline for water delivery from the accumulating reservoir for drinking water to the water dispensing device (23, 26); - a flow-through ozone-air mixture generator provided with an air pump for external air delivery via an air filter to the ozone-air mixture generator, wherein an output of the ozone-air mixture generator is connected with the delivery pipeline for delivery of ozone-air mixture or air inside the delivery pipeline; - a non-return valve mounted between the delivery pipeline and the ozone-air mixture generator to prevent water from getting into the ozone-air mixture generator from the delivery pipeline; - an electromechanical ultrasonic frequency irradiator mounted on the delivery pipeline to generate ultrasonic oscillations in the delivery pipeline walls and in water filling the delivery pipeline; - a program control unit to control operation of the ozone-air mixture generator, the air pump and the electromechanical irradiator for disinfection and cleaning of inner surfaces of the delivery pipeline and water therein.
A method for operating a satellite communications gateway comprising radio frequency electronics, the method comprising: receiving, in a first receiver, a first signal on a satellite downlink including a time-division multiplexed, TDM, return channels from one or more first terminals and a time-division multiple access, TDMA, return channels from one or more second terminals overlapped in an allocated frequency range; recovering the time-division multiplexed return channels from the first signal; reducing a sample rate of the first signal by a first down-sample factor prior to recovery of the time-division multiplexed return channels; outputting the time-division multiplexed return channels; cancelling the time-division multiplexed return channels in the first signal to generate a second signal; reducing the sample rate of the first signal by a second down-sample factor prior to cancelling the time-division multiplexed return channels in the first signal to generate the second signal; and outputting (450, 455) the second signal to a second receiver. receiving, in a first receiver, a first signal on a satellite downlink including a time-division multiplexed, TDM, return channels from one or more first terminals and a time-division multiple access, TDMA, return channels from one or more second terminals overlapped in an allocated frequency range; recovering the time-division multiplexed return channels from the first signal; reducing a sample rate of the first signal by a first down-sample factor prior to recovery of the time-division multiplexed return channels; outputting the time-division multiplexed return channels; cancelling the time-division multiplexed return channels in the first signal to generate a second signal; reducing the sample rate of the first signal by a second down-sample factor prior to cancelling the time-division multiplexed return channels in the first signal to generate the second signal; and outputting (450, 455) the second signal to a second receiver.
A method for recovering products from algae, comprising: mixing an algae feed with particulate solids comprising diatomaceous earth, the algae feed comprising from 0.1 wt% to 30 wt% algae in water, the particulate solids having an average particle size between 1 μm and 200 μm, the weight of the particulate solids being at least 10% of the weight of the algae feed; exposing the algae feed to a solvent under effective solvent extraction conditions, the effective solvent extraction conditions including a temperature of at least 40°C and a pressure of 100 psig (0.7 MPag) to 2500 psig (17.2 MPag), to form an extraction mixture comprising the solvent, the particulate solids, water, extracted products, and residual algae solids; and recovering at least a portion of the extracted products from the extraction mixture. mixing an algae feed with particulate solids comprising diatomaceous earth, the algae feed comprising from 0.1 wt% to 30 wt% algae in water, the particulate solids having an average particle size between 1 μm and 200 μm, the weight of the particulate solids being at least 10% of the weight of the algae feed; exposing the algae feed to a solvent under effective solvent extraction conditions, the effective solvent extraction conditions including a temperature of at least 40°C and a pressure of 100 psig (0.7 MPag) to 2500 psig (17.2 MPag), to form an extraction mixture comprising the solvent, the particulate solids, water, extracted products, and residual algae solids; and recovering at least a portion of the extracted products from the extraction mixture.
An air vent comprising an adjustment insert for adjusting the air stream flowing out through the air vent, the air stream being adjustable by rotating the adjustment insert, comprising at least one first light guide and at least one second light guide, the first light guide being firmly attached to a housing of the air vent and the second light guide being firmly attached to the adjustment insert, the first light guide and the second light guide being rotatable against each other, and the second light guide being adapted to be illuminated by the first light guide, and a backlightable portion of the adjustment insert being adapted to be illuminated by the second light guide.
A halogen-containing flame-retardant fiber comprising: 100 parts by mass of a halogen-containing polymer that contains 17 to 70 parts by mass of a halogen in 100 parts by mass of the polymer; and 1.3 to 20 parts by mass of a molybdenum compound, wherein the molybdenum compound is at least one kind of compound selected from the group consisting of molybdenum oxide, ammonium molybdate, molybdenum oxide supported on an inorganic filler and ammonium molybdate supported on an inorganic filler, wherein an average particle diameter of the molybdenum compound as expressed in median diameter is 10 nm or more and less than 600 nm, and wherein the halogen-containing polymer is a polymer obtained by polymerizing 100 parts by mass of a monomer composition in total that contains 30 to 70 parts by mass of acrylonitrile, 30 to 70 parts by mass of a halogen-containing vinylidene monomer and/or a halogen-containing vinyl monomer, and 0 to 10 parts by mass of a vinyl monomer copolymerizable therewith. 100 parts by mass of a halogen-containing polymer that contains 17 to 70 parts by mass of a halogen in 100 parts by mass of the polymer; and 1.3 to 20 parts by mass of a molybdenum compound, wherein the molybdenum compound is at least one kind of compound selected from the group consisting of molybdenum oxide, ammonium molybdate, molybdenum oxide supported on an inorganic filler and ammonium molybdate supported on an inorganic filler, wherein an average particle diameter of the molybdenum compound as expressed in median diameter is 10 nm or more and less than 600 nm, and wherein the halogen-containing polymer is a polymer obtained by polymerizing 100 parts by mass of a monomer composition in total that contains 30 to 70 parts by mass of acrylonitrile, 30 to 70 parts by mass of a halogen-containing vinylidene monomer and/or a halogen-containing vinyl monomer, and 0 to 10 parts by mass of a vinyl monomer copolymerizable therewith. 30 to 70 parts by mass of acrylonitrile, 30 to 70 parts by mass of a halogen-containing vinylidene monomer and/or a halogen-containing vinyl monomer, and 0 to 10 parts by mass of a vinyl monomer copolymerizable therewith.
A cargo restrainer for a container, comprising: - a covering member extending along a width dimension (x) and along a dimension perpendicular to the width dimension (x) for covering an exposed side of the container, and - a strap configured to attach the covering member to and between the opposing side frame sections of the container, characterized in that the covering member: is configured to extend over the width dimension (x) of the container and to reach over aligned peripheral frame beams of opposing side frame sections of the container, - comprises a plurality of consecutively connected self-supporting panels (211, 212, 213) and - comprises at least one pivoting member, which is configured to connect two adjacent panels (211, 212, 213) to each other and to articulate the connected two adjacent panels (211, 212, 213) in respect to each other about an axis, which extends in the width dimension (x). - a covering member extending along a width dimension (x) and along a dimension perpendicular to the width dimension (x) for covering an exposed side of the container, and - a strap configured to attach the covering member to and between the opposing side frame sections of the container, - comprises a plurality of consecutively connected self-supporting panels (211, 212, 213) and - comprises at least one pivoting member, which is configured to connect two adjacent panels (211, 212, 213) to each other and to articulate the connected two adjacent panels (211, 212, 213) in respect to each other about an axis, which extends in the width dimension (x).
A microneedle unit, comprising: a microneedle (30; 100); and a microneedle container (20; 60), wherein the microneedle (30; 100) includes a base (31; 110, 120) having a projection forming surface (31; 110, 120a) on which a projection (32; 101) is formed and a supported surface (31b; 110b, 120b) which is an opposite side to the projection forming surface (31; 110, 120a), and a portion of the projection forming surface (31; 110, 120a), in which the projection (32; 101) is not provided, is an abutted section (31a1; 110c), the microneedle container (20; 60) includes a housing (22; 62) that houses the microneedle (30; 100) and a cover (21; 61) that covers the microneedle (30; 100) housed in the housing (22; 62), the housing (22; 62) includes a supporting section (22a; 62a) that supports the supported surface (31b; 110b, 120b), and the cover (21; 61) includes an abutment section that faces the abutted section (31a1; 110c), and a facing section that faces the projection (32; 101), and a distance between the abutment section and the facing section is larger than a distance between the abutted section (31a1; 110c) and a distal end of the projection (32; 101) (32; 101) in an extending direction in which the projection extends, characterized in that a distance between the abutment section and the supporting section (22a; 62a) is smaller than a sum of a distance between the abutted section (31a1; 110c) and the supported surface (31b; 110b, 120b) and a distance between the abutted section (31a1; 110c) and the distal end of the projection (32; 101) in the extending direction. a microneedle (30; 100); and a microneedle container (20; 60), wherein the microneedle (30; 100) includes a base (31; 110, 120) having a projection forming surface (31; 110, 120a) on which a projection (32; 101) is formed and a supported surface (31b; 110b, 120b) which is an opposite side to the projection forming surface (31; 110, 120a), and a portion of the projection forming surface (31; 110, 120a), in which the projection (32; 101) is not provided, is an abutted section (31a1; 110c), the microneedle container (20; 60) includes a housing (22; 62) that houses the microneedle (30; 100) and a cover (21; 61) that covers the microneedle (30; 100) housed in the housing (22; 62), the housing (22; 62) includes a supporting section (22a; 62a) that supports the supported surface (31b; 110b, 120b), and the cover (21; 61) includes an abutment section that faces the abutted section (31a1; 110c), and a facing section that faces the projection (32; 101), and a distance between the abutment section and the facing section is larger than a distance between the abutted section (31a1; 110c) and a distal end of the projection (32; 101) (32; 101) in an extending direction in which the projection extends, characterized in that a distance between the abutment section and the supporting section (22a; 62a) is smaller than a sum of a distance between the abutted section (31a1; 110c) and the supported surface (31b; 110b, 120b) and a distance between the abutted section (31a1; 110c) and the distal end of the projection (32; 101) in the extending direction.
A display panel comprising: a first substrate including a pixel area; and a second substrate disposed under the first substrate and including a light emitting element arranged to emit first light to the first substrate, wherein the first substrate comprises: a base layer; a color filter layer disposed under the base layer and disposed in the pixel area; a light control layer disposed under the color filter layer; a first opening between the color filter layer and the light control layer; a first protective layer disposed between the color filter layer and the light control layer; and a second protective layer disposed between the first protective layer and the light control layer, wherein the first opening is between a portion of the first protective layer and a portion of the second protective layer, the portion of the first protective layer and the portion of the second protective layer are spaced apart from each other. a first substrate including a pixel area; and a second substrate disposed under the first substrate and including a light emitting element arranged to emit first light to the first substrate, wherein the first substrate comprises: a base layer; a color filter layer disposed under the base layer and disposed in the pixel area; a light control layer disposed under the color filter layer; a base layer; a color filter layer disposed under the base layer and disposed in the pixel area; a light control layer disposed under the color filter layer; a first opening between the color filter layer and the light control layer; a first protective layer disposed between the color filter layer and the light control layer; and a second protective layer disposed between the first protective layer and the light control layer, wherein the first opening is between a portion of the first protective layer and a portion of the second protective layer, the portion of the first protective layer and the portion of the second protective layer are spaced apart from each other. a first protective layer disposed between the color filter layer and the light control layer; and a second protective layer disposed between the first protective layer and the light control layer, wherein the first opening is between a portion of the first protective layer and a portion of the second protective layer, the portion of the first protective layer and the portion of the second protective layer are spaced apart from each other.
A mechanical X-Y planar isotropic harmonic oscillator comprising a fixed frame (140,140a), a first stage comprising parallel springs (131a to 131d) holding a mass; a second stage comprising parallel springs (132a to 132d) holding a mass, a third stage comprising parallel springs (133a to 133d) holding a mass and a fourth stage comprising parallel springs (134a to 134d) holding a mass, wherein said stages are successively located above each other such that the second stage is above the first stage, the third stage is above the second stage and the fourth stage is above the third stage; wherein each stage is arranged with a relative anticlockwise 90° rotation with respect to the stage above which it is placed, wherein the masses (131e, 132e) of the first and second stages are attached to each other and the masses (133e, 134e) of the third and fourth stages are attached to each other; wherein two of said stages (131,134 or 132,133) are attached together to form an orbiting mass and two other of said stages (132,133 or 131,134) are attached to said fixed frame wherein the two stages forming the orbiting mass are the first and fourth stage and wherein the two stages attached to the fixed frame are the second and the third stage or wherein the two stages forming the orbiting mass are the second and third stage and wherein said two stages attached to the fixed frame are the first and the fourth stage. a first stage comprising parallel springs (131a to 131d) holding a mass; a second stage comprising parallel springs (132a to 132d) holding a mass, a third stage comprising parallel springs (133a to 133d) holding a mass and a fourth stage comprising parallel springs (134a to 134d) holding a mass, wherein said stages are successively located above each other such that the second stage is above the first stage, the third stage is above the second stage and the fourth stage is above the third stage; wherein each stage is arranged with a relative anticlockwise 90° rotation with respect to the stage above which it is placed, wherein the masses (131e, 132e) of the first and second stages are attached to each other and the masses (133e, 134e) of the third and fourth stages are attached to each other; wherein two of said stages (131,134 or 132,133) are attached together to form an orbiting mass and two other of said stages (132,133 or 131,134) are attached to said fixed frame wherein the two stages forming the orbiting mass are the first and fourth stage and wherein the two stages attached to the fixed frame are the second and the third stage or wherein the two stages forming the orbiting mass are the second and third stage and wherein said two stages attached to the fixed frame are the first and the fourth stage.
A vehicle cabin body structure comprising: a side sill, a floor fixedly attached to the side sill, a dash wall fixedly being attached to the side sill and the floor at least partially defining a passenger compartment of a vehicle, and an inner reinforcing bracket having a sill attachment section attached to an inboard surface of the side sill, a dash wall attachment section attached to an interior surface of the dash wall, and a floor attachment section attached to an upper surface of the floor, wherein the inner reinforcing bracket is installed to surfaces of the vehicle cabin body structure within the passenger compartment, characterized in that a floor stiffener is fixedly attached to the upper surface of the floor and extends from proximate the dash wall rearward within the passenger compartment with an upper surface of the floor stiffener being spaced apart from and above the upper surface of the floor, and the inner reinforcing bracket further includes a second floor attachment section spaced apart from the floor attachment section, the second floor attachment section being attached to the upper surface of the floor stiffener. a side sill, a floor fixedly attached to the side sill, a dash wall fixedly being attached to the side sill and the floor at least partially defining a passenger compartment of a vehicle, and an inner reinforcing bracket having a sill attachment section attached to an inboard surface of the side sill, a dash wall attachment section attached to an interior surface of the dash wall, and a floor attachment section attached to an upper surface of the floor, a sill attachment section attached to an inboard surface of the side sill, a dash wall attachment section attached to an interior surface of the dash wall, and a floor attachment section attached to an upper surface of the floor, wherein the inner reinforcing bracket is installed to surfaces of the vehicle cabin body structure within the passenger compartment, a floor stiffener is fixedly attached to the upper surface of the floor and extends from proximate the dash wall rearward within the passenger compartment with an upper surface of the floor stiffener being spaced apart from and above the upper surface of the floor, and the inner reinforcing bracket further includes a second floor attachment section spaced apart from the floor attachment section, the second floor attachment section being attached to the upper surface of the floor stiffener.
A wound dressing for use as a hemostat comprising a melt-blown substrate having at least two major facing surfaces and a coating layer that is applied to at least one of the maj or facing surface that is selected from the group consisting of co-reactive hydrogel-forming materials, one or more plasma-based hemostatic agents and combinations thereof, wherein the coated major facing surface is napped.
Hearing instrument, comprising a housing (2, 22, 42, 62), a cover (12, 32, 52, 72), and a frame (3, 23, 43, 63) which is arranged inside the housing (2, 22, 42, 62) and on which signal-processing components of the hearing instrument are arranged, wherein the housing (2, 22, 42, 62) is configured in one piece and encloses the frame (3, 23, 43, 63) in five spatial directions (A, B, C), and wherein the housing (2, 22, 42, 62) has, in the further spatial direction, an installation opening (11, 31, 51, 71) which is dimensioned such that the frame (3, 23, 43, 63) can be pushed through it into the housing (2, 22, 42, 62), and which can be closed at least partially by the cover (12, 32, 52, 72), wherein, in addition to the installation opening (11, 31, 51, 71), the housing (2, 22, 42, 62) has, in a spatial direction (A, C) transverse to the spatial direction of the installation opening (11, 31, 51, 71), a fixing opening (4, 24, 44, 64), which interacts with a fixing device arranged on the frame (3, 23, 43, 63) in such a way that the frame (3, 23, 43, 63) is fixed against sliding out of the housing (2, 22, 42, 62), characterized in that the fixing opening is additionally designed as a microphone opening and the fixing device is additionally designed as a microphone receptacle.
A polarizable electrode material for an electric double layer capacitor and comprising porous carbon particles, a conductive assistant, a tungsten oxide powder and a binder, characterized in that the tungsten oxide is dispersed in the polarizable electrode material so that the tungsten oxide per 1 g of the polarizable electrode material has a surface area of 0.2 m 2 or more and less than 6 m 2, the surface area being based on the BET specific surface area of the tungsten oxide in a powder state prior to being mixed as an electrode material.